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eval_length.py
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261 lines (207 loc) · 11.1 KB
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# -*- coding: utf-8 -*-
import re
import pandas as pd
import numpy as np
import matplotlib.pyplot as plt
import sys
from os import listdir
from os.path import join, isfile
import os
## script for the evaluation of the lengths of segments and units (segment = final unit in the alignment)
## usage python eval_length dir
# where dir contains all the csv file produced by regex ant bert tokenisation alignments (text in the csv, corresponding to 'final_result.csv' files)
# flatten function
def flatten(xss):
return [x for xs in xss for x in xs]
# def segment length
def segment_length(data, name):
data = data.iloc[:, 1:]
list_of_lengths = []
# loop on the dfs and count the length of the text
for i in range(len(data.columns)):
for j in range(len(data)):
text = data.iloc[j, i]
if type(text) == float:
pass
else:
splitted_text = re.findall('\w+', text)
length = len(splitted_text)
list_of_lengths.append(length)
# compute average and median of the lengths
average = np.average(list_of_lengths)
median = np.median(list_of_lengths)
new_row = {'base': name, 'average': average, 'median': median}
# produce plot
fig, ax = plt.subplots(figsize=(6, 6))
ax.hist(list_of_lengths, bins=30, edgecolor="black", color="#69b3a2", alpha=0.3)
plt.title(f'Number of tokens per segment ({name})')
plt.xlabel('number of tokens')
plt.ylabel('number of segments')
ax.axvline(median, color="black", ls="--", label="Median")
fig.savefig(f'results_eval_length/{name}-segment.png')
# get values for each text
values, counts = np.unique(list_of_lengths, return_counts=True)
df_values = pd.DataFrame(
{'tokens per segment': values,
'number of segments concerned': counts})
df_values.to_csv(f'results_eval_length/results_tokens_per_segment_{name}.csv', index=False)
#return new_row, values, counts
return new_row, values, counts, list_of_lengths
# function which does the same as the previous one but for the units
def unit_length(data, name):
data = data.iloc[:, 1:]
list_of_lengths_units = []
for i in range(len(data.columns)):
for j in range(len(data)):
text = data.iloc[j, i]
if type(text) == float:
pass
else:
# unit : count the length of a text between '|'
if '|' in text:
frag = text.split('|')
for k in range(len(frag)):
splitted_text = re.findall('\w+', frag[k])
#length = len(frag[k].split())
length = len(splitted_text)
list_of_lengths_units.append(length)
else:
splitted_text = re.findall('\w+', text)
#length = len(text.split())
length = len(splitted_text)
list_of_lengths_units.append(length)
average = np.average(list_of_lengths_units)
median = np.median(list_of_lengths_units)
new_row = {'base': name, 'average': average, 'median': median}
fig, ax = plt.subplots(figsize=(6, 6))
ax.hist(list_of_lengths_units, bins=30, edgecolor="black", color="#69b3a2", alpha=0.3)
plt.title(f'Number of tokens per unit ({name})')
plt.xlabel('number of tokens')
plt.ylabel('number of units')
ax.axvline(median, color="black", ls="--", label="Median")
fig.savefig(f'results_eval_length/{name}-units.png')
values, counts = np.unique(list_of_lengths_units, return_counts=True)
df_values = pd.DataFrame(
{'tokens per unit': values,
'number of units concerned': counts})
df_values.to_csv(f'results_eval_length/results_tokens_per_unit_{name}.csv', index=False)
return new_row, values, counts, list_of_lengths_units
if __name__ == '__main__':
dir = sys.argv[1]
directory = os.fsencode(dir)
try:
os.mkdir('results_eval_length')
except OSError as exception:
pass
# create the needed dfs
df_segment_lengths = pd.DataFrame(columns=['base', 'average', 'median'])
df_unit_lengths = pd.DataFrame(columns=['base', 'average', 'median'])
df_values_s_bert = pd.DataFrame(columns=['tokens per segment', 'number of segments concerned'])
df_values_u_bert = pd.DataFrame(columns=['tokens per unit', 'number of units concerned'])
df_values_s_regex = pd.DataFrame(columns=['tokens per segment', 'number of segments concerned'])
df_values_u_regex = pd.DataFrame(columns=['tokens per unit', 'number of units concerned'])
global_list_lengths_s_bert = []
global_list_lengths_s_regex = []
global_list_lengths_u_bert = []
global_list_lengths_u_regex = []
# loop on each file in the directory
for filename in listdir(directory):
full_path = join(directory, filename)
if isfile(full_path):
full_name = full_path.decode("utf-8")
name = filename.decode("utf-8").split('.')[0].split('-', 1)[1]
print(name)
if name.endswith('bert'):
data = pd.read_csv(full_name, sep='\t')
else:
data = pd.read_csv(full_name, sep=',')
### segments
new_row_sl, values_s, counts_s, lengths_s = segment_length(data, name)
df_segment_lengths.loc[len(df_segment_lengths)] = new_row_sl
# produce two dfs : one for bert results and one for regex results
if name.endswith('bert'):
df_values_s_bert = df_values_s_bert._append(pd.DataFrame({'tokens per segment': values_s,
'number of segments concerned': counts_s}))
global_list_lengths_s_bert.append(lengths_s)
else:
df_values_s_regex = df_values_s_regex._append(pd.DataFrame({'tokens per segment': values_s,
'number of segments concerned': counts_s}))
global_list_lengths_s_regex.append(lengths_s)
### units
new_row_ul, values_u, counts_u, lengths_u = unit_length(data, name)
df_unit_lengths.loc[len(df_unit_lengths)] = new_row_ul
if name.endswith('bert'):
df_values_u_bert = df_values_u_bert._append(pd.DataFrame({'tokens per unit': values_u,
'number of units concerned': counts_u}))
global_list_lengths_u_bert.append(lengths_u)
else:
df_values_u_regex = df_values_u_regex._append(pd.DataFrame({'tokens per unit': values_u,
'number of units concerned': counts_u}))
global_list_lengths_u_regex.append(lengths_u)
# groupby to have for bert and regex and for segment and unit single values for each number of token
dfsb = df_values_s_bert.groupby('tokens per segment')['number of segments concerned'].sum().reset_index()
dfsr = df_values_s_regex.groupby('tokens per segment')['number of segments concerned'].sum().reset_index()
dfub = df_values_u_bert.groupby('tokens per unit')['number of units concerned'].sum().reset_index()
dfur = df_values_u_regex.groupby('tokens per unit')['number of units concerned'].sum().reset_index()
df_segment_lengths.sort_values(by=['base']).to_csv('results_eval_length/results_lengths_seg_full.csv', index=False)
df_unit_lengths.sort_values(by=['base']).to_csv('results_eval_length/results_lengths_unit_full.csv', index=False)
# save the results
dfsb.to_csv('results_eval_length/results_tokens_per_segment_bert_global.csv', index=False)
dfsr.to_csv('results_eval_length/results_tokens_per_segment_regex_global.csv', index=False)
dfub.to_csv('results_eval_length/results_tokens_per_unit_bert_global.csv', index=False)
dfur.to_csv('results_eval_length/results_tokens_per_unit_regex_global.csv', index=False)
average_sb = np.average(flatten(global_list_lengths_s_bert))
average_sr = np.average(flatten(global_list_lengths_s_regex))
average_ub = np.average(flatten(global_list_lengths_u_bert,))
average_ur = np.average(flatten(global_list_lengths_u_regex))
print(f'averages {average_sb, average_sr, average_ub, average_ur}')
print(f"index à 0 {dfsb[dfsb['tokens per segment'] == 0].index}" )
print(f"index à 0 {dfub[dfub['tokens per unit'] == 0].index}")
dfsb.drop(dfsb[dfsb['tokens per segment'] == 0].index, inplace=True)
dfsr.drop(dfsr[dfsr['tokens per segment'] == 0].index, inplace=True)
dfub.drop(dfub[dfub['tokens per unit'] == 0].index, inplace=True)
dfur.drop(dfur[dfur['tokens per unit'] == 0].index, inplace=True)
def categorize(value):
if value < 50:
return value
elif value >= 50 and value < 100:
return '50-99'
elif value >= 100 and value < 150:
return '100-149'
elif value >= 150 and value <= 200:
return '150-200'
else:
return '>200'
dfsb['nbTokVal'] = dfsb['tokens per segment'].apply(categorize)
##chatgpt
g_dfsb = dfsb.groupby('nbTokVal')['number of segments concerned'].sum().reset_index()
# Sort the dataframe by the grouped tokens
sort_order = list(range(1, 51)) + ['50-99', '100-149', '150-200', '>200']
g_dfsb['nbTokVal'] = pd.Categorical(g_dfsb ['nbTokVal'], categories=sort_order, ordered=True)
g_dfsb = g_dfsb.sort_values('nbTokVal')
g_dfsb.set_index('nbTokVal', inplace=True)
dfsr['nbTokVal'] = dfsr['tokens per segment'].apply(categorize)
g_dfsr = dfsr.groupby('nbTokVal')['number of segments concerned'].sum().reset_index()
g_dfsr['nbTokVal'] = pd.Categorical(g_dfsr['nbTokVal'], categories=sort_order, ordered=True)
g_dfsr = g_dfsr.sort_values('nbTokVal')
g_dfsr.set_index('nbTokVal', inplace=True)
fig, axs = plt.subplots(figsize=(12, 8))
width = 0.3
g_dfsb.plot.bar(ax=axs, width=width, position=1, legend=False, color='tab:blue', label='bert segmentation')
g_dfsr.plot.bar(ax=axs, width=width, position=0, legend=False, color='orange', label='regex segmentation')
axs.legend(['bert segmentation', 'regex segmentation'])
axs.set_ylabel("number of segments concerned")
axs.set_xlabel('tokens per segment')
axs.set_title('Number of tokens per segment')
axs.figure.savefig('results_eval_length/number_of_segments_bar_global_new.png')
#axu = dfub.plot(x='tokens per unit', y='number of units concerned', figsize=(8, 8),
# title='Number of tokens per unit')
#dfur.plot(ax=axu, x='tokens per unit', y='number of units concerned')
axu = dfub.plot.bar(x='tokens per unit', y='number of units concerned', figsize=(8, 8),
title='Number of tokens per unit')
dfur.plot.bar(ax=axu, color='orange')
axu.set_ylabel("number of units concerned")
axu.legend(["bert segmentation", "regex segmentation"])
axu.set_ylabel("number of units concerned")
axu.legend(["bert segmentation", "regex segmentation"])
axu.figure.savefig('results_eval_length/number_of_units_bar_global.png')